Journal of the American Ceramic Society · 1978 · 82 citations · 4 references
Natural SciencesMaterials EngineeringMaterials ScienceCrystal StructureMaterials CharacterizationMechanical Behavior Of MaterialsDeformation MechanismsDislocation MechanicsMicrostructure AnalysisPlastic DeformationStrain HardeningWork HardeningCrystal PlasticityDeformationDeformation MeasurementDislocation BehaviorDislocation MechanismsDislocationsSessile DislocationsSurface Relief
Diamond pyramid indentations on (001) surfaces were studied by X‐ray diffraction microscopy and scanning electron microscopy. These methods reveal the patterns of internal strains and external surface relief, respectively, which accompany various deformation (and cracking) processes at the indentation sites. These processes are controlled by the formation of sessile 〈110〉 dislocations which prevent additional straining of the crystals along [001]. The results provide evidence that the local crystal work‐hardening behavior is important in determining the microhardness values.
4
Independent slip systems in crystals
G. W. Groves, Anthony Kelly · Philosophical magazine · 1963 · 471 citations
Natural Sciences, Materials Engineering, Materials Science +13
Hardness of pure alkali halides
John J. Gilman · Journal of Applied Physics · 1973 · 48 citations
Natural Sciences, Materials Engineering, Materials Science +17